1.10.1. SVG Polyline- ¶ Example 1 ¶
Elements are used to create any shape with only straight lines: Sorry, your browser does not support inline SVG. Here is the SVG code:
Example
<svgxmlns="http://www.w3.org/2000/svg"version="1.1"><polylinepoints="20,20
40,25 60,40 80,120 120,140
200,180"style="fill:none;stroke:black;stroke-width:3"/>
F for Opera users: view the SVG file (right-click the SVG drawing preview source).
Example 2 ¶
There is only another example of a straight line:
Sorry, your browser does not support inline SVG. Here is the SVG code:
Example
<svgxmlns="http://www.w3.org/2000/svg"version="1.1"><polylinepoints="0,40
40,40 40,80 80,80 80,120 120,120
120,160"style="fill:white;stroke:red;stroke-width:4"/>
F for Opera users: view the SVG file (right-click the SVG drawing preview source).
- 1. Geographical Information Systems in the World Wide Web Era 4
- 2. Basic technology of WebGIS 4
- 3. Geographic Web Services 5
- 4. aggregation of geographical information 4
- 5. mobile GIS 5
- 6. Geographic information portal 3
- 7. New generation national spatial data infrastructure and GIS 4
- 8. Application of WebGIS in E-Commerce 3
- 9. Application of WebGIS in E-government 3
- 10. Hotspots and frontiers of WebGIS 2
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Principles, Technologies, and Methods of Geographic Information Systems
102 In recent years, Geographic Information Systems (GIS) have undergone rapid development in both theoretical and practical dimensions. GIS has been widely applied for modeling and decision-making support across various fields such as urban management, regional planning, and environmental remediation, establishing geographic information as a vital component of the information era. The introduction of the “Digital Earth” concept has further accelerated the advancement of GIS, which serves as its technical foundation. Concurrently, scholars have been dedicated to theoretical research in areas like spatial cognition, spatial data uncertainty, and the formalization of spatial relationships. This reflects the dual nature of GIS as both an applied technology and an academic discipline, with the two aspects forming a mutually reinforcing cycle of progress.
- 1. Introduction to Geographic Information Systems 6
- 2. From the Real World to the Bit World 3
- 3. Spatial Data Model 7
- 4. Spatial Reference Systems and Map Projections 5
- 5. Data in GIS 4
- 6. Spatial data acquisition 2
- 7. Spatial Data Management 6
- 8. Spatial analysis 8
- 9. Digital Terrain Model (DTM) and Terrain Analysis 5
- 10. Spatial modeling and spatial decision support 6
- 11. Spatial data representation and map making 6
- 12. 3S Integration Technology 5
- 13. Network Geographic Information System 4
- 14. Examples of Geographic Information System Application 8
- 15. Organization and Management of Geographic Information System Application Projects 10
- 16. Geographic Information system Software Engineering Technology 7
- 17. Geographic Information System Standards 3
- 18. Geographic Information System and Society 3
- 19. Earth Information Science and Digital Earth 4
Example 1 ¶
Sorry, your browser does not support inline SVG. Here is the SVG code: Example F for Opera users: view the SVG file (right-click the SVG drawing preview source). There is only another example of a straight line: Sorry, your browser does not support inline SVG. Here is the SVG code: Example F for Opera users: view the SVG file (right-click the SVG drawing preview source). In recent years, Geographic Information Systems (GIS) have undergone rapid development in both theoretical and practical dimensions. GIS has been widely applied for modeling and decision-making support across various fields such as urban management, regional planning, and environmental remediation, establishing geographic information as a vital component of the information era. The introduction of the “Digital Earth” concept has further accelerated the advancement of GIS, which serves as its technical foundation. Concurrently, scholars have been dedicated to theoretical research in areas like spatial cognition, spatial data uncertainty, and the formalization of spatial relationships. This reflects the dual nature of GIS as both an applied technology and an academic discipline, with the two aspects forming a mutually reinforcing cycle of progress. <svgxmlns="http://www.w3.org/2000/svg"version="1.1"><polylinepoints="20,20
40,25 60,40 80,120 120,140
200,180"style="fill:none;stroke:black;stroke-width:3"/>
Example 2 ¶
<svgxmlns="http://www.w3.org/2000/svg"version="1.1"><polylinepoints="0,40
40,40 40,80 80,80 80,120 120,120
120,160"style="fill:white;stroke:red;stroke-width:4"/>
Principles, Technologies, and Methods of Geographic Information Systems
102